Pete Florence
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Profile
| Field | Details |
|---|---|
| Current Position | Physical Intelligence Co-founder |
| Previous | Google DeepMind Research Scientist |
| PhD | MIT |
| Advisor | Russ Tedrake |
Key Contributions
- Dense Object Nets: Learning dense visual descriptors for objects
- Implicit Representations for Robotics: Applying NeRF and similar methods to robotics
- Physical Intelligence Founding: Participated in pi0 development
- Google Robotics Research: Visual representation learning research
Research Timeline
MIT PhD (2014-2019)
Advised by Russ Tedrake
| Year | Work | Impact |
|---|---|---|
| 2018 | Dense Object Nets | Dense visual descriptors |
| 2019 | PhD Graduation |
Google Brain / DeepMind (2019-2024)
Visual Representation + Robot Learning
| Year | Work | Impact |
|---|---|---|
| 2019 | Joined Google | Google Brain Robotics |
| 2020 | Implicit Representations | NeRF + Robotics |
| 2021 | Transporter Networks related | Object rearrangement |
| 2022 | Continued visual representation research |
Physical Intelligence (2024-present)
| Year | Work | Impact |
|---|---|---|
| 2024 | Co-founded Physical Intelligence | |
| 2024 | pi0 Development participation |
Major Publications
Dense Descriptors
- Dense Object Nets (CoRL 2018) - Most influential paper
- Self-Supervised Correspondence (2019)
Implicit Representations
- NeRF for Manipulation (2021)
- Implicit Behavioral Cloning (2021)
Language + Vision + Action
- CLIPort related research
- Language-conditioned manipulation
Key Ideas
Dense Object Nets (2018)
Core: Learning consistent descriptors for every pixel on objects
Features:
- Invariant to viewpoint changes
- Correspondence between object instances
- Self-supervised learning
Applications:
- Robot grasping
- Object rearrangement
- Manipulation tasks
Impact:
- Core research in robot visual representation learning
- Influenced Transporter Networks and others
- Dense correspondence application to robotics
Implicit Representations for Robotics
Core: Utilizing implicit representations like NeRF for robot manipulation
Advantages:
- Continuous 3D representation
- Novel view synthesis
- Physical interaction prediction
Philosophy & Direction
Research Philosophy
“Good visual representation is the key to robot learning. What you see determines what you can do.”
Research Direction Evolution
- 2014-2019: Dense visual descriptors, self-supervised learning
- 2019-2022: Implicit representations, NeRF + robotics
- 2022-2024: Language-conditioned manipulation
- 2024-present: Foundation models, Physical Intelligence
MIT to Google to Physical Intelligence
MIT Experience
- Advised by Russ Tedrake (robot control expert)
- Experience with Drake simulator
- Theory + practical robotics combination
Google Experience
- Large-scale research infrastructure
- Collaboration with RT series colleagues
- Foundation model experience
Physical Intelligence Founding
- From academic research to actual productization
- Founded together with colleagues